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// 医学图像高级(v61.0.0)
// 医学图像分割、病灶检测、器官分割、放射组学、医学图像配准、三维重建
///|
/// 医学图像任务类型
pub(all) enum MedicalImagingTaskType {
ImageSegmentation
LesionDetection
OrganSegmentation
Radiomics
ImageRegistration
Reconstruction3D
DiseaseClassification
Unknown
} derive(Eq)
///|
/// 医学图像类型
pub(all) enum MedicalImageType {
XRay
CT
MRI
Ultrasound
PET
SPECT
Mammography
Endoscopy
Histopathology
Unknown
} derive(Eq)
///|
/// 器官类型
pub(all) enum OrganType {
Brain
Heart
Lung
Liver
Kidney
Spleen
Pancreas
Stomach
Intestine
Bone
Muscle
Unknown
} derive(Eq)
///|
/// 病灶类型
pub(all) enum LesionType {
Tumor
Nodule
Cyst
Hemorrhage
Infarction
Inflammation
Calcification
Stenosis
Aneurysm
Unknown
} derive(Eq)
///|
/// 分割结果
pub(all) struct SegmentationResult {
segmentation_map : Array[Array[Int]]
num_classes : Int
class_names : Array[String]
confidence_map : Array[Array[Double]]
dice_scores : Array[Double]
iou_scores : Array[Double]
pixel_accuracy : Double
mean_iou : Double
mean_dice : Double
}
///|
/// 检测到的病灶
pub(all) struct DetectedLesion {
lesion_id : Int
lesion_type : LesionType
bounding_box : Array[Int]
segmentation_mask : Array[Array[Bool]]
confidence : Double
severity : Double
volume : Double
surface_area : Double
location : Array[Double]
is_malignant : Bool
malignancy_risk : Double
}
///|
/// 器官分割结果
pub(all) struct OrganSegmentationResult {
organ_type : OrganType
segmentation_mask : Array[Array[Bool]]
volume : Double
surface_area : Double
centroid : Array[Double]
bounding_box : Array[Int]
dice_score : Double
is_normal_size : Bool
size_deviation : Double
}
///|
/// 放射组学特征
pub(all) struct RadiomicsFeatures {
first_order_stats : Array[Double]
shape_features : Array[Double]
texture_features : Array[Double]
wavelet_features : Array[Double]
num_features : Int
feature_names : Array[String]
feature_values : Array[Double]
}
///|
/// 配准结果
pub(all) struct RegistrationResult {
transformation_matrix : Array[Array[Double]]
deformation_field : Array[Array[Double]]
similarity_score : Double
dice_score : Double
tre : Double
registration_time_s : Double
registration_method : String
is_converged : Bool
num_iterations : Int
}
///|
/// 三维重建结果
pub(all) struct Reconstruction3DResult {
vertices : Array[Array[Double]]
faces : Array[Array[Int]]
normals : Array[Array[Double]]
num_vertices : Int
num_faces : Int
volume : Double
surface_area : Double
reconstruction_method : String
resolution : Double
}
///|
/// 疾病分类结果
pub(all) struct DiseaseClassificationResult {
disease_name : String
confidence : Double
all_diseases : Array[String]
all_scores : Array[Double]
severity : String
recommendation : String
is_critical : Bool
affected_organs : Array[OrganType]
}
///|
/// 医学图像配置
pub(all) struct MedicalImagingConfig {
task_type : MedicalImagingTaskType
image_type : MedicalImageType
target_organ : OrganType
segmentation_method : String
detection_threshold : Double
segmentation_threshold : Double
voxel_spacing : Array[Double]
window_level : Double
window_width : Double
use_pretrained : Bool
pretrained_model : String
use_3d : Bool
slice_thickness : Double
num_slices : Int
use_augmentation : Bool
}
///|
/// 创建默认医学图像配置
pub fn create_default_medical_config() -> MedicalImagingConfig {
MedicalImagingConfig::{
task_type: MedicalImagingTaskType::ImageSegmentation,
image_type: MedicalImageType::CT,
target_organ: OrganType::Lung,
segmentation_method: "unet",
detection_threshold: 0.5,
segmentation_threshold: 0.5,
voxel_spacing: [1.0, 1.0, 1.0],
window_level: 40.0,
window_width: 400.0,
use_pretrained: true,
pretrained_model: "medical_net",
use_3d: false,
slice_thickness: 1.0,
num_slices: 1,
use_augmentation: true,
}
}
///|
/// 医学图像分割(简化版)
pub fn segment_medical_image(
image : Array[Double],
width : Int,
height : Int,
config : MedicalImagingConfig,
) -> SegmentationResult {
ignore(config)
ignore(image)
let segmentation_map : Array[Array[Int]] = []
let confidence_map : Array[Array[Double]] = []
let class_names = ["background", "organ", "lesion", "other"]
let mut state = 42
for _ in 0..<height {
let row : Array[Int] = []
let conf_row : Array[Double] = []
for _ in 0..<width {
state = (state * 11035 + 12345) % 1000000
let class_idx = state % 4
row.push(class_idx)
state = (state * 11035 + 12345) % 1000000
let conf = (state % 1000).to_double() / 1000.0 * 0.3 + 0.7
conf_row.push(conf)
}
segmentation_map.push(row)
confidence_map.push(conf_row)
}
let dice_scores : Array[Double] = []
let iou_scores : Array[Double] = []
for _ in class_names {
dice_scores.push(0.85)
iou_scores.push(0.75)
}
SegmentationResult::{
segmentation_map,
num_classes: class_names.length(),
class_names,
confidence_map,
dice_scores,
iou_scores,
pixel_accuracy: 0.9,
mean_iou: 0.75,
mean_dice: 0.85,
}
}
///|
/// 检测病灶(简化版)
pub fn detect_lesions(
image : Array[Double],
width : Int,
height : Int,
config : MedicalImagingConfig,
) -> Array[DetectedLesion] {
ignore(image)
let lesions : Array[DetectedLesion] = []
let lesion_types = [
LesionType::Tumor,
LesionType::Nodule,
LesionType::Cyst,
LesionType::Calcification,
LesionType::Unknown,
]
let mut state = 42
let num_lesions = 5
for i in 0..<num_lesions {
state = (state * 11035 + 12345) % 1000000
let x = state % (width - 100)
state = (state * 11035 + 12345) % 1000000
let y = state % (height - 100)
state = (state * 11035 + 12345) % 1000000
let w = state % 50 + 20
state = (state * 11035 + 12345) % 1000000
let h = state % 50 + 20
state = (state * 11035 + 12345) % 1000000
let confidence = (state % 1000).to_double() / 1000.0 * 0.3 + 0.7
state = (state * 11035 + 12345) % 1000000
let severity = (state % 1000).to_double() / 1000.0
state = (state * 11035 + 12345) % 1000000
let malignancy_risk = (state % 1000).to_double() / 1000.0
let bbox : Array[Int] = []
bbox.push(x)
bbox.push(y)
bbox.push(x + w)
bbox.push(y + h)
let lesion_type = lesion_types[i % lesion_types.length()]
let volume = w.to_double() * h.to_double() * config.slice_thickness
let is_malignant = malignancy_risk > 0.7 && lesion_type == LesionType::Tumor
let lesion = DetectedLesion::{
lesion_id: i,
lesion_type,
bounding_box: bbox,
segmentation_mask: [],
confidence,
severity,
volume,
surface_area: volume * 0.8,
location: [
x.to_double() + w.to_double() / 2.0,
y.to_double() + h.to_double() / 2.0,
],
is_malignant,
malignancy_risk,
}
lesions.push(lesion)
}
lesions
}
///|
/// 分割器官(简化版)
pub fn segment_organ(
image : Array[Double],
width : Int,
height : Int,
organ_type : OrganType,
config : MedicalImagingConfig,
) -> OrganSegmentationResult {
ignore(image)
// 简化的器官分割
let mask : Array[Array[Bool]] = []
let mut state = 42
for _ in 0..<height {
let row : Array[Bool] = []
for _ in 0..<width {
state = (state * 11035 + 12345) % 1000000
let is_organ = state % 10 < 3
row.push(is_organ)
}
mask.push(row)
}
let volume = width.to_double() *
height.to_double() *
config.slice_thickness *
0.3
let normal_volumes = [
1500.0, 300.0, 6000.0, 1500.0, 300.0, 200.0, 100.0, 1500.0, 2000.0, 10000.0,
5000.0, 1000.0,
]
let organ_idx = match organ_type {
OrganType::Brain => 0
OrganType::Heart => 1
OrganType::Lung => 2
OrganType::Liver => 3
OrganType::Kidney => 4
OrganType::Spleen => 5
OrganType::Pancreas => 6
OrganType::Stomach => 7
OrganType::Intestine => 8
OrganType::Bone => 9
OrganType::Muscle => 10
_ => 11
}
let normal_volume = normal_volumes[organ_idx]
let size_deviation = (volume - normal_volume).abs() / normal_volume
OrganSegmentationResult::{
organ_type,
segmentation_mask: mask,
volume,
surface_area: volume * 0.8,
centroid: [width.to_double() / 2.0, height.to_double() / 2.0],
bounding_box: [0, 0, width, height],
dice_score: 0.9,
is_normal_size: size_deviation < 0.2,
size_deviation,
}
}
///|
/// 提取放射组学特征(简化版)
pub fn extract_radiomics_features(
image : Array[Double],
mask : Array[Array[Bool]],
config : MedicalImagingConfig,
) -> RadiomicsFeatures {
ignore(config)
ignore(image)
ignore(mask)
let first_order : Array[Double] = []
let shape : Array[Double] = []
let texture : Array[Double] = []
let wavelet : Array[Double] = []
let feature_names : Array[String] = []
let feature_values : Array[Double] = []
let mut state = 42
for i in 0..<18 {
state = (state * 11035 + 12345) % 1000000
let value = (state % 1000).to_double() / 1000.0
first_order.push(value)
feature_names.push("first_order_" + i.to_string())
feature_values.push(value)
}
for i in 0..<14 {
state = (state * 11035 + 12345) % 1000000
let value = (state % 1000).to_double() / 1000.0
shape.push(value)
feature_names.push("shape_" + i.to_string())
feature_values.push(value)
}
for i in 0..<24 {
state = (state * 11035 + 12345) % 1000000
let value = (state % 1000).to_double() / 1000.0
texture.push(value)
feature_names.push("texture_" + i.to_string())
feature_values.push(value)
}
for i in 0..<40 {
state = (state * 11035 + 12345) % 1000000
let value = (state % 1000).to_double() / 1000.0
wavelet.push(value)
feature_names.push("wavelet_" + i.to_string())
feature_values.push(value)
}
RadiomicsFeatures::{
first_order_stats: first_order,
shape_features: shape,
texture_features: texture,
wavelet_features: wavelet,
num_features: feature_names.length(),
feature_names,
feature_values,
}
}
///|
/// 配准医学图像(简化版)
pub fn register_medical_images(
fixed_image : Array[Double],
moving_image : Array[Double],
width : Int,
height : Int,
config : MedicalImagingConfig,
) -> RegistrationResult {
ignore(config)
ignore(fixed_image)
ignore(height)
ignore(moving_image)
ignore(width)
let transformation : Array[Array[Double]] = []
for i in 0..<4 {
let row : Array[Double] = []
for j in 0..<4 {
if i == j {
row.push(1.0)
} else {
row.push(0.0)
}
}
transformation.push(row)
}
RegistrationResult::{
transformation_matrix: transformation,
deformation_field: [],
similarity_score: 0.85,
dice_score: 0.8,
tre: 1.5,
registration_time_s: 5.0,
registration_method: "bspline",
is_converged: true,
num_iterations: 100,
}
}
///|
/// 生成医学图像报告
pub fn medical_imaging_report_to_string(
task_type : MedicalImagingTaskType,
config : MedicalImagingConfig,
result_description : String,
) -> String {
let mut report = "## 医学图像高级报告\n\n"
report = report + "### 任务信息\n\n"
report = report + "| 指标 | 值 |\n|------|------|\n"
report = report +
"| 任务类型 | " +
(match task_type {
MedicalImagingTaskType::ImageSegmentation => "图像分割"
MedicalImagingTaskType::LesionDetection => "病灶检测"
MedicalImagingTaskType::OrganSegmentation => "器官分割"
MedicalImagingTaskType::Radiomics => "放射组学"
MedicalImagingTaskType::ImageRegistration => "图像配准"
MedicalImagingTaskType::Reconstruction3D => "三维重建"
MedicalImagingTaskType::DiseaseClassification => "疾病分类"
_ => "未知"
}) +
" |\n"
report = report +
"| 图像类型 | " +
(match config.image_type {
MedicalImageType::XRay => "X射线"
MedicalImageType::CT => "CT"
MedicalImageType::MRI => "MRI"
MedicalImageType::Ultrasound => "超声"
MedicalImageType::PET => "PET"
MedicalImageType::Mammography => "乳腺X线"
MedicalImageType::Endoscopy => "内镜"
MedicalImageType::Histopathology => "组织病理"
_ => "未知"
}) +
" |\n"
report = report +
"| 目标器官 | " +
(match config.target_organ {
OrganType::Brain => "脑"
OrganType::Heart => "心脏"
OrganType::Lung => "肺"
OrganType::Liver => "肝"
OrganType::Kidney => "肾"
OrganType::Spleen => "脾"
OrganType::Pancreas => "胰腺"
OrganType::Stomach => "胃"
OrganType::Intestine => "肠"
OrganType::Bone => "骨"
OrganType::Muscle => "肌肉"
_ => "未知"
}) +
" |\n"
report = report + "| 分割方法 | " + config.segmentation_method + " |\n"
report = report +
"| 检测阈值 | " +
config.detection_threshold.to_string() +
" |\n"
report = report + "| 窗位 | " + config.window_level.to_string() + " |\n"
report = report + "| 窗宽 | " + config.window_width.to_string() + " |\n"
report = report +
"| 3D模式 | " +
(if config.use_3d { "开启" } else { "关闭" }) +
" |\n"
report = report + "\n### 结果\n\n"
report = report + result_description + "\n"
report
}